Abstract: Methods of making labels devoid of liner plies. A method of making a label for securement to a substrate comprises providing a face ply having a top side and a bottom side. The method includes disposing a hotmelt adhesive on the bottom side in a pattern. The method comprises formulating a liner coating configured to be activated by a fluid. The method includes disposing the liner coating on the bottom side outwardly adjacent the hotmelt adhesive. The bottom side is configured to be secured to a substrate via the hotmelt adhesive upon activation of the liner coating by the fluid.

Abstract: Systems and methods are described for manufacturing an adhesive tape. An example method includes: providing a plurality of adhesive webs, wherein each web includes a hot melt adhesive adhered to a backing material; providing a fabric web having a fabric material; guiding a first adhesive web from the plurality of adhesive webs into a first position proximate a first side of the fabric web; guiding a second adhesive web from the plurality of adhesive webs into a second position proximate a second side of the fabric web; applying heat and pressure to form a web of the baffle tape in which the first adhesive web is bonded to the first side of the fabric web and the second adhesive web is bonded to the second side of the fabric web; and rewinding the web of the baffle tape into a roll.

Abstract: A method of manufacturing a phosphor panel includes: forming a phosphor layer having a plurality of phosphor particles on an exit window; forming an organic film on the phosphor layer; forming a metal reflection film on the organic film; forming an oxide film on the metal reflection film; removing the organic film by firing; and forming an oxide film integrally covering a surface of the metal reflection film and surfaces of the phosphor particles by atomic layer deposition.

Abstract: A processing method of a base material sheet includes winding out the base material sheet wound up by a first core and a first porous sheet wound up by a second core, winding up by a third core the base material sheet and the first porous sheet to be overlapped with each other, and processing the base material sheet by a first processing liquid held in the first porous sheet; and winding out the base material sheet and the first porous sheet overlappingly wound up by the third core, winding up the first porous sheet by the second core, and winding up the base material sheet by the first core.

Abstract: A method for transferring an atomically thin layer comprising providing a target substrate and a donor substrate on which a first atomically thin layer has been formed. The method further comprises disposing an adhesion layer at the donor substrate or at the target substrate. The method further comprises bringing the target substrate and the donor substrate together. Further, the method comprises bonding together the donor substrate, the adhesion layer and the target substrate and removing the donor substrate.

Abstract: The invention relates to an at least three-layer biaxially oriented polyester film including at least one base layer B, one rough outer layer A and one smooth outer layer C, where the layers A and C are external layers arranged on opposing surfaces of the base layer B. The outer layer A includes calcium carbonate particles. The outer layer C includes less than 0.1% by weight of particles (where the percentage by weight data are based on the weight of the layer). The polyester used to produce all of the layers includes no 2,6-naphthalenedicarboxylic-acid-derived units as repeating units. The entire film includes less than 0.3% by weight (based on the weight of the entire film) of particles. The invention further relates to processes for producing the film, and also to use of the latter as process film for the provision of surface properties, in particular for furniture surfaces.

Abstract: A method of making an electronics enclosure that is light-weight, structurally sound and EMI resistant is provided. Preferably the electronics enclosure is made by covering the walls of a mold for the chassis and the lid with a metallic mesh. At least two plies of carbon prepreg are applied over the metallic mesh. The carbon prepreg and metallic mesh are then cured together at high temperature, typically in an autoclave. The wire mesh becomes integrated into the composite material during the curing process when the carbon material shrinks to the mold and the epoxy bonds with the wire mesh. The molds may then be removed leaving an electronics enclosure with superior properties.

Abstract: In one or more embodiments, the present invention provide a polyisobutylene-based polyurethane-urea, and related method of preparation, wherein PIB-diols form the soft segment and a diisocyanate along with a well-defined combinations low molecular weight diol chain extenders and amino alcohol as co-chain extenders form the hard segments. In one or more embodiments, the present invention is directed to the use of judiciously chosen chain extender/co-chain extender combinations to enhance the strength of PUs by partially replacing urethane groups with urea groups by the use of amino alcohols to improve strength, while maintaining good processability. These thermoplastic PIB-PUU elastomers exhibit heretofore unattainable combinations of mechanical properties and processability.

Abstract: The present disclosure relates to absorbent articles and methods for assembling absorbent articles having a design including: a first graphic extending along a first component, a second graphic extending along a second component, and a discontinuous region separating the first graphic from the second graphic. The discontinuous region is configured to provide the appearance that the first and second graphics form a contiguous design while at the same time mitigating the need to precisely align the graphics on separated components to form a contiguous design during the assembly process.

Abstract: In accordance with certain embodiments, an apparatus for bonding electronic components such as light-emitting elements each to a connection point on a substrate via an adhesive includes a platform for supporting the substrate, a membrane for covering the electronic components, a source of pressure for urging the membrane against the electronic components, whereby pressure is applied between each electronic component and its corresponding connection point, and a source of energy for at least partially curing the adhesive.

Abstract: A process includes forming a transfer film without a release layer in which the transfer film includes a substrate layer to be peeled off during a transfer process, and a transfer layer to be transferred to an article to be decorated. The transfer layer has a protective layer, a printed or vapor-deposited decorative layer, and an adhering layer, which are laminated in this order. The substrate layer is a base film of a synthetic resin formed by extruding a molten synthetic resin. The substrate layer is so laminated and thermally compressed in direct contact with the protective layer such that the substrate layer does not peel off the protective layer before the transfer process and peels off the protective layer from a peeled end portion of the substrate layer as a trigger during the transfer process, by thermally pressing the substrate layer and the protective layer between rolls.

Abstract: A portable assembly for securing a plastic fitting to a plastic pipe by employing fusion or thermal sealing is disclosed. The assembly is secured to the outer circumference of a plastic pipe at a desired location. The assembly can be secured at any longitudinal and lateral position along a plastic pipe. A heater heats both the pipe and the fitting to the point where they begin to melt. The heater is then removed and the fitting is pressed onto the surface of the pipe, thus fusing the fitting to the pipe. After cooling, the assembly is removed and the surface of the pipe within the interior of the fitting is drilled or removed. This now enables fluid within the pipe to be sent to the fitting and onto distribution lines which are connected to the fitting.

Abstract: A test tube, suitable to be immersed in a cryogenic fluid, comprises a containing body having a perimeter wall that defines a containing compartment, a bottom wall, disposed inside the latter to close it at the lower part, and a housing seating, inside the perimeter wall and outside the containing compartment. A support element for an identification code is suitable to be inserted into the housing seating, with at least a free surface facing toward the outside of the housing seating on the opposite side with respect to the bottom wall. In correspondence to said housing seating, mechanical constraint means are provided in cooperation with said perimeter wall of the containing body and with a peripheral portion of the free surface of the support element, in order to constrain the latter in a defined axial position with respect to the containing body.

Abstract: A process of manufacturing an artificial leather in one embodiment includes adhering a substrate onto a release cloth; flocking the substrate to form fur thereon; applying a synthetic resin to the substrate and drying same to form a half-finished artificial leather; foaming the half-finished artificial leather to fill interstices of the fur with the synthetic resin; sanding the half-finished artificial leather to remove excessive synthetic resin from the half-finished artificial leather; coloring the half-finished artificial leather to form a velvet-like surface; and removing the release cloth from the half-finished artificial leather to produce a finished artificial leather.

Abstract: A composite is produced by providing a first and a second joining partner, a connecting means, a sealing means, a reactor having a pressure chamber, and a heating element. The two joining partners and the connecting means are arranged in the pressure chamber such that the connecting means is situated between the first joining partner and the second joining partner. A gas-tight region is then produced, in which the connecting means is arranged. Afterward, a gas pressure of at least 20 bar is produced in the pressure chamber outside the gas-tight region. The gas pressure acts on the gas-tight region and presses the first joining partner, the second joining partner and the connecting means together. The joining partners and the connecting means are then heated by means of the heating element to a predefined maximum temperature of at least 210° C. and then cooled.

Abstract: An apparatus and a method for chip-to-wafer integration is provided. The apparatus includes a coating module, a bonding module and a cleaning module. The method includes the steps of placing at least one chip on a wafer to form an integrated product, forming a film on the integrated product, such that the integrated product is substantially fluid-tight, and exerting a predetermined positive pressure on the film during permanent bonding of the at least one chip to the wafer. The method further includes the step of removing the film from the integrated product after permanent bonding of the at least one chip to the wafer.

Abstract: The process for decorating the surface of a substrate comprises the stages of printing a three-dimensional decorative pattern on one surface of a polymer film using resin, placing the decorated surface of the film and at least one surface of the substrate in contact and providing thermal energy thereto, and detaching the film from the substrate onto the surface of which the three-dimensional decorative pattern has been transferred.

Abstract: A separating apparatus for separating a composite substrate into a first substrate and a second substrate previously bonded to each other. The separating apparatus includes a support base having a supporting surface for supporting the composite substrate, a pair of side surface supporting rollers for supporting the peripheral side surface of the composite substrate placed on the supporting surface, and a separating unit for applying a separating force to the boundary between the first substrate and the second substrate constituting the composite substrate supported to the supporting surface of the support base and the side surface supporting rollers, thereby separating the composite substrate into the first substrate and the second substrate.

Abstract: A process for coating a substrate comprising the sequential steps of (a) providing a transfer sheet provided with a printed powder coating, (b) applying the transfer sheet onto the substrate with the powder coating in contact with the substrate, (c) removing the transfer sheet from the powder coating and (d) curing the powder coating on the substrate.

Abstract: A touch panel is formed by firstly forming a film layer on a first plate, and next, sequentially forming a buffer layer on the film layer, forming a sensing layer on the buffer layer, forming a second plate on the sensing layer. After the foregoing formation procedures, the first substrate layer is removed from the film layer. Next, a cover is attached to the film layer. In this way, the film layer is located between the cover and the buffer layer. Finally, the second substrate layer is removed from the sensing layer, so as to form a touch panel with the features of light weight, thin thickness and low costs.

Abstract: There is provided an image transfer sheet, including: an image receiving layer; a bonding layer; a transparent support; and a substrate, in this order, wherein a peeling strength between the transparent support and the substrate is lower than a peeling strength between the image receiving layer and the bonding layer, and between the bonding layer and the transparent support.

Abstract: A method for fabricating organic photovoltaic-based electricity-generating military pilot equipment, including flight suits, helmets, helmet visors, and related equipment is described. In particular, a method for fabricating such equipment utilizing lamination of highly flexible organic photovoltaic films is described. High-throughput and low-cost fabrication options also allow for economical production.

Abstract: Methods of forming garments having one or more stretchable conductive ink patterns. Described herein are method of making garments (including compression garments) having one or more highly stretchable conductive ink pattern formed of a composite of an insulative adhesive, a conductive ink, and an intermediate gradient zone between the adhesive and conductive ink. The conductive ink typically includes between about 40-60% conductive particles, between about 30-50% binder; between about 3-7% solvent; and between about 3-7% thickener. The stretchable conductive ink patterns may be stretched more than twice their length without breaking or rupturing.

Abstract: The invention relates to a method and a transfer strip for decorating surfaces, in particular for decorating outer packagings. A transfer strip comprising a strip-like backing film (11), a decorative layer (13) and a release layer (12) arranged between the decorative layer (13) and the backing film is provided. The decorative layer (13) has a multiplicity of identical optically variable decorative elements, which are arranged in first area regions, which are separate from one another and spaced apart from one another in the longitudinal direction of the transfer strip. The decorative layer (13) has second area regions, which are separate from one another and spaced apart from one another in the longitudinal direction of the transfer strip and in which the decorative layer (13) has one or more individualizable layers for providing respectively different machine-readable optical markings.

Abstract: The present invention relates to a method for transferring graphene using a hot press, comprising: a step of contacting graphene, having a thermal-releasable sheet attached thereto, with a target substrate; and a step of pressing and heating the graphene having the thermal-releasable sheet attached thereto and the target substrate using the upper press and lower press of a hot press so as to separate the thermal-releasable sheet and the graphene and transfer the separated graphene to the target substrate. The present invention also relates to a graphene-transfer hot press apparatus for said transfer process.

Abstract: A composite light guide plate manufacturing method includes the steps of providing a light guide substrate; providing a transfer membrane, which sequentially includes a substrate, a reflective layer and a diffusion microstructure; attaching the transfer membrane to the light guide substrate with a side of the transfer membrane, which has the diffusion microstructure thereon; and removing the substrate to expose the reflective layer.

Abstract: Disclosed herein is a transfer printing technology. A transfer printing substrate includes a plurality of pillar structures and a sacrificial layer applied thereon. In situ alignment of a transfer layer is performed by the pillar structures and a structural confinement by a concave structure formed on a bottom surface of the transfer layer corresponding to the pillar structures, or a chemical bond of the pillar structure and the transfer layer. In the in situ alignment by the structural confinement, the remaining sacrificial layer after being removed may serve as an adhesive component. The transfer process is performed by a separation of the bond by the sacrificial layer, a cutting of the pillar structures in the chemic bonding state of the pillar structures and the transfer layer, or a separation of the bond between the pillar structures and the handling substrate.

Abstract: A laminate donor element can be used to transfer a composite of a metal grid and an electronically conductive polymer to a receiver sheet for use in various devices. The laminate donor element has a donor substrate, a metal grid that is disposed over only portions of the donor substrate, leaving portions of the substrate uncovered by the metal grid, and an electronically conductive polymer that covers the portions of the donor substrate that are uncovered by the metal grid. The composite of metal grid and electronically conductive polymer exhibits a peel force of less than or equal to 40 g/cm for separation from the donor substrate at room temperature. The resulting article has a substrate on which a reverse composite of the metal grid and electronically conductive polymer is disposed, which article can be incorporated into various devices.

Abstract: An exterior film for a home appliance includes a cut portion formed by half-cutting corresponding to a see-through portion formed at an exterior part of the home appliance. After the exterior film is adhered, the cut portion is removed along with removal of a sub adhesive protection film. Accordingly, operability and productivity during manufacturing of the exterior film are improved.

Abstract: A method for bonding a thin film piece includes: forming a support layer on each upper face of a plurality of thin film pieces; fixing the plurality of thin film pieces to a first substrate through a temporary fixing layer provided on a lower face of the first substrate so that the temporary fixing layer contacts with the upper face and at least a part of a side face of each support layer; bonding a lower face of the plurality of thin film pieces to a second substrate; and removing the first substrate from the plurality of thin film pieces by removing at least one of the support layer and the temporary fixing layer.

Abstract: A method and apparatus are provided which include providing a rotatable roller with a cylindrical surface adapted to wrap the donor element on the surface. A donor element is secured to the roller and a first portion of the donor element is wrapped onto the cylindrical surface while applying tension to the media. The tension is then decreased to alter a region of contact between the first portion of the donor element and the cylindrical surface. An additional portion of the donor element is then wrapped onto the cylindrical surface. The donor element is then transferred from the roller to a substrate.

Abstract: A composite light guide plate manufacturing method includes the steps of providing a light guide substrate; providing a transfer membrane, which sequentially includes a substrate, a reflective layer and a diffusion microstructure; attaching the transfer membrane to the light guide substrate with a side of the transfer membrane, which has the diffusion microstructure thereon; and removing the substrate to expose the reflective layer.

Abstract: The invention relates to a protective cover sheet comprising a low birefringence protective polymer film and a layer that promotes adhesion to poly(vinyl alcohol), the protective cover sheet comprising at least one functional layer containing a UV-absorbing polymer.

Abstract: A method is provided that includes peeling at least one carrier strip away from an adhesive layer of an adhesive article. The adhesive article includes a flexible substrate with the adhesive layer thereon, wherein the adhesive layer remains mounted to the flexible substrate of the adhesive article after the carrier strip is peeled away, wherein the adhesive article is operative to disintegrate when submerged in water. The method also includes using the adhesive article to adhesively mount a cloth or paper napkin to clothing being worn by a person. The carrier strip or adhesive article may include advertising and/or a coupon printed thereon, which may be taken away by the person after the meal.

Abstract: In one aspect, an encapsulation sheet, a method of manufacturing an organic light emitting display device using the encapsulation sheet, and an organic light emitting display device is provided. The encapsulation sheet includes a carrier film; and a first sheet formed on the carrier film, wherein the first sheet comprises at least one of tin fluorophosphates glass, chalcogenide glass, tellurite glass, borate glass, and phosphate glass.

Abstract: The steps of a method for fabricating a proximity sensing module that is adapted to be attached to a mobile device, include: (a) patterning an upper conductive film to form a patterned conductive film which includes an upper connective pad that is adapted to be electrically connected to a respective contact on a circuit board of the mobile device, and an induced circuit pattern that is electrically connected to the upper connective pad; (b) adhering an adhesive sheet to the patterned conductive film; and (c) forming a through hole in the adhesive sheet such that the upper connective pad is exposed from the through hole.

Abstract: A manufacturing method of functional film comprising the steps of: a first step of feeding a lengthy substrate with self-support including a first laminate film on a back side, forming an organic film on a front side of the substrate while transferring the substrate, providing a second laminate film on a surface of the organic film, and taking up the substrate into a film roll; and a second step of loading the film roll on a vacuum deposition apparatus, continuously feeding the substrate including the first laminate film and the second laminate film from the film roll, removing the second laminate film while transferring the substrate, forming an inorganic film over the organic film of the substrate, and taking up the substrate into a film roll.

Abstract: A formation method of an organic layer (13) includes a transfer process of forming the organic layer (13) by superposing a donor substrate (30) having a light heat converting layer (32) and a transfer layer (34) formed sequentially to cover at least regions corresponding to organic layer formation regions on a support plate (31) and a transfer mask (40) having openings corresponding to the organic layer formation regions, on each other so that the transfer layer-side surface of the donor substrate (30) comes into contact with the transfer mask (40), and, with the resultant structure placed above a transfer target substrate (20) so that the transfer mask (40) is on the lower side, transferring the transfer layer (34) onto the transfer target substrate (20) via the openings of the transfer mask (40).

Abstract: A decorative molding film includes a base film provided with a protective layer, a coloring layer containing a polyolefin based hot melt adhesive and pigment, and an adhesive layer containing a polyolefin based hot melt adhesive, stacked in that order on one side of the base film.

Abstract: A method for manufacturing a flexible structure including implanting ionic species in first and second source substrates so as to form first and second embrittlement regions respectively, delimiting first and second thin films, providing a flexible substrate, the stiffness R of which is less than or equal to 107 GPa·?m3, securing the first and second thin films to the first and second faces of the flexible substrate respectively so as to form a stack including the flexible structure delimited by the first and second embrittlement regions, the flexible structure having a stiffening effect suitable for allowing transfers of the first and second thin films, and applying a thermal budget so as to transfer the first and second thin films onto the flexible substrate.

Abstract: An insulating sheet includes a resin sheet, and an insulating layer disposed on the resin sheet, wherein the insulating layer includes an inorganic insulating layer, and the inorganic insulating layer includes first inorganic insulating particles which have a particle size of not less than 3 nm and not greater than 110 nm and which are bonded to each other.

Abstract: A labeling machine for the dispensing of labels, such as self-adhesive labels, on objects, such as containers or bottles. The labeling machine has an arrangement for the generation of a defined strip tension of the labeling material over its strip length between a looper and a dispensing edge, and for the generation of a defined strip tension of the backing material over at least a part of its strip length between the dispensing edge and a receptacle for the backing material.

Abstract: A film application system having multiple foil application stations. Each foil application station has a support for an elongated plastic component (typically vinyl) having an input and an output side. A drive moves successive elongated components along a path through the application station from the input side to the output side as decorative foil is applied to a surface of the component. A properly positioned and oriented transfer head applies heat and pressure to the elongated film as the component moves through the application station. The disclosed system must accommodate different style and shape components corresponding to different style windows, doors, or sashes. A backing fixture that is configured to support a given configuration component is positioned to support the component as the component moves through the application station in a region of the transfer head.

Abstract: One embodiment includes a process including coating a first microporous layer onto a first decal and curing the first microporous layer and the first decal.

Abstract: A thermal transfer sheet having a subbing layer and a dye layer in this order on a substrate film, wherein the subbing layer contains colloidal silica or colloidal alumina, and the dye layer contains a polyvinyl acetal resin having an acetacetal group in an amount of from 3.0 to 30.0 molar times the butyral group therein, and a dye of the following formula (1): wherein A represents a phenylene group; R1 and R2 represent a hydrogen atom, an alkyl group, or an aryl group; R3 represents an amino group, an alkoxy group, or an aryloxy group; and R4 represents an alkyl group, or an aryl group.

Abstract: A radiation window foil for an X-ray radiation window comprises a mesh that defines a number of openings (902), said mesh having a first side surface (903) and a second side surface (904). A layer (906) spans said openings. Said layer (906) is on the first side of the mesh but spans said openings at a level closer to the second side surface (904) of the mesh than the first side surface (903) of the mesh.

Abstract: An improved process for manufacture of polymer coated composite substrates is described. a coated composite substrate is prepared in the press by applying a layer of a primer coating composition to the surface of a compressible mat comprising fibers and/or particles and a resin binder. The primer coating composition is formulated preferably as a fast setting polymer latex capable of forming a chemically crosslinked polymer matrix when applied to the surface of a compressible mat. a thermosetting top coat composition can be applied directly over the wet primer coating composition before heat-processing the mat to improve surface quality and release characteristics. Compressing and heating the coated mat produces a primed composite substrate directly out of the press.

Abstract: The invention is to provide a method for manufacturing a joined sheet product. The method comprising a first joining step including opposing a transverse end face of a first sheet product(1) to a transverse end face of a second sheet product(2) and joining release films of the first and second sheet products with a first joining member(30); a removing step including removing a portion of an intended member including at least a surface protecting member so as to leave at least the release film and a pressure-sensitive adhesive provided on the release film among the constituent members of both or any one of the first and second sheet products(1, 2), wherein the portion has a predetermined length from the transverse end face of the intended member; and a second joining step including providing a second joining member(40) on at least an exposed portion(40b) resulting from the removal of the intended member to join the surface protecting member sides of the first and second sheet products(1, 2).

Abstract: There is described a process for the production of a multilayer body (4) having an electrically conductive layer (421) arranged on a carrier layer (41), in which there is provided a transfer film (5) having a transfer layer (52) of an electrically conductive polymer. The electrically conductive layer is transferred from the transfer film (5) on to the multilayer body (4). There are also provided a transfer film and a multilayer body produced in accordance with the process.

Abstract: A heat transfer material kit is disclosed that includes a first image transfer material that includes a printable non-porous surface, and a second image transfer material that includes an outer layer having a film forming binder and thermoplastic particles. The film forming binder is polar. A method of using the kit is disclosed that includes the steps of a) imaging the substantially non-porous printable surface to form an imaged surface having printed and un-printed areas; b) positioning the outer layer adjacent the imaged surface; c) transferring a portion of the outer layer to the printed area while transferring a lesser portion of the outer layer to the non-printed area to form a coated imaged surface having a non-printed area with less coating than the printed area; and d) thereafter transferring the coated image to a substrate. Alternate methods of using the kit and applying images to substrates that provide good image appearance and durability are also disclosed.